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SINGLE ARRIVAL BEHAVIOR IN QUEUEING MODELS WITH REMOVABLE SERVERS: A THEORETICAL APPROACH
Abstract
"Single Arrival Behavior in Queueing Models with Removable Servers: A Theoretical Approach" explores the dynamics of queueing systems where servers can be removed or deactivated depending on the system state, specifically in the context of a single arrival process. This study provides a theoretical framework for analyzing such systems, focusing on how server removal influences system performance metrics such as waiting times, queue lengths, and service efficiency. By modeling the system under various assumptions about the arrival process, server availability, and removal conditions, the research investigates how different configurations affect the overall behavior of the queue. The study uses analytical methods and mathematical models to derive key performance indicators and explores the impact of server removal policies on system stability and resource utilization. This approach aims to offer insights into the design and optimization of queueing systems in practical applications, such as telecommunications, healthcare, and manufacturing, where servers may be intermittently available or deactivated based on demand or operational constraints.
Keywords
Queueing models, removable servers, single arrival
References
Baburaj C, Surendranath TM. “On the waiting time distribution of an M/M/1 Bulk service queue under the policy (a, c, d), International Journal of Agricultural & statistical sciences, 2006; 2:101-106.
Chaudhary ML, Lec AM. Single channel constant capacity bulk service queueing process with an intermittently available server INFOR, 1972; 10:284-291.
Michel Schall, Leonard Kleinrok. M/G/1 Queue with rest periods and Certain Service Independent Queueing Discipline” Oper. Res. 1992; 31(4):705-719.
Madan KC. A single Channel Queue with Bulk Service subject to Interruptions” Microelectronics and Reliability. 1989;29(5):813-818.
Sharda, Garg PC. Time dependent solution of queuing Problem with intermittently available server microelectron relief, 1985; 26(1):039-1041.
Shanthikumar JG. On stochastic Decomposition in the Queues with Generalized vacation” Operations research, 1988; 36:566-569.
leavy Y, Yachiali U. Utilization of Idle time in an M/G/1 Queueing system, Managm Sci. 22
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